In this work, we consider diffusion-based molecular communication timing channels. Three different timing channels are presented based on three different modulation techniques, i.e., i) modulation of the release timing of the information particles, ii) modulation on the time between two consecutive information particles of the same type, and iii) modulation on the time between two consecutive information particles of different types. We show that each channel can be represented as an additive noise channel, where the noise follows one of the subclasses of stable distributions. We provide expressions for the probability density function of the noise terms, and numerical evaluations for the probability density function and cumulati...
Molecular communication (MC) is a new communication engineering paradigm where molecules are employe...
This letter introduces a formalism for modeling time-variant channels for diffusive molecular commun...
In this work, we consider diffusion-based molecular communication with and without drift between two...
Two new asynchronous modulation techniques for molecular timing (MT) channels are proposed. One base...
Molecular Communications via Diffusion (MCvD) is sensitive to environmental changes such as the diff...
This paper studies the capacity of molecular communications in fluid media, where the information is...
We utilize the well known Additive Inverse Gaussian Noise (AIGN) communication channel to investigat...
In this paper, the comprehensive delay and performance analyses of the $M$-ary molecular communicati...
none1noUnlike electromagnetic communications, where the noise is typically represented by a (Gaussia...
This work studies the impact of time-synchronization in molecular timing (MT) channels by analyzing ...
The inverse Gaussian (IG) distribution is a well- established distribution for the first hitting tim...
Molecular communication (MC) is a promising bio-inspired paradigm, in which molecules are used to en...
This paper investigates upper and lower bounds for the constrained capacity of a diffusive molecular...
Nanonetworks are expected to expand the capabilities of individual nanomachines by allowing them to ...
Molecular communication (MC) is a promising nanoscale communication paradigm that enables nanomachin...
Molecular communication (MC) is a new communication engineering paradigm where molecules are employe...
This letter introduces a formalism for modeling time-variant channels for diffusive molecular commun...
In this work, we consider diffusion-based molecular communication with and without drift between two...
Two new asynchronous modulation techniques for molecular timing (MT) channels are proposed. One base...
Molecular Communications via Diffusion (MCvD) is sensitive to environmental changes such as the diff...
This paper studies the capacity of molecular communications in fluid media, where the information is...
We utilize the well known Additive Inverse Gaussian Noise (AIGN) communication channel to investigat...
In this paper, the comprehensive delay and performance analyses of the $M$-ary molecular communicati...
none1noUnlike electromagnetic communications, where the noise is typically represented by a (Gaussia...
This work studies the impact of time-synchronization in molecular timing (MT) channels by analyzing ...
The inverse Gaussian (IG) distribution is a well- established distribution for the first hitting tim...
Molecular communication (MC) is a promising bio-inspired paradigm, in which molecules are used to en...
This paper investigates upper and lower bounds for the constrained capacity of a diffusive molecular...
Nanonetworks are expected to expand the capabilities of individual nanomachines by allowing them to ...
Molecular communication (MC) is a promising nanoscale communication paradigm that enables nanomachin...
Molecular communication (MC) is a new communication engineering paradigm where molecules are employe...
This letter introduces a formalism for modeling time-variant channels for diffusive molecular commun...
In this work, we consider diffusion-based molecular communication with and without drift between two...